PDF

Technical Losses in Power Networks Mechanisms Miti

Pooya Parvizi, Milad Jalilian

2026enenergysustainabilitypower networkslosses

Abstract

Language:

Technical losses (TLs) in power systems are an inevitable outcome of energy dissipation in components such as conductors, transformers, and transmission lines. These losses arise from the combined effects of material properties, operational conditions, and environmental factors, creating ongoing challenges for energy efficiency and grid sustainability. Their reduction requires a coordinated approach that integrates material improvements, smart technology, and optimized operational practices. Reducing TLs not only improves economic efficiency but also contributes significantly to global sustainability efforts by enabling more efficient energy use and reducing carbon emissions associated with power generation. A review of recent publications shows that the literature on network losses is heavily skewed toward non-technical losses (NTLs), with TL-focused studies being fewer, often dated, and lacking comprehensive scope. This paper addresses the existing research gap by presenting a comprehensive, section-oriented taxonomy of TL mechanisms in power systems, accompanied by precise definitions for each category and a direct linkage between these categories and applicable loss mitigation measures. In addition, selected real-world projects and global initiatives aimed at reducing TLs, together with current regulatory approaches, emerging trends in this domain, and an assessment of the maturity level of technologies employed for TL reduction, are analyzed.

Download

Cite This Work

@article{1637a69b-4db2-4039-b009-2027ee87561a,
  title={Technical Losses in Power Networks Mechanisms Miti},
  author={Pooya Parvizi and Milad Jalilian},
  year={2026},
  language={en}
}
TY  - JOUR
TI  - Technical Losses in Power Networks Mechanisms Miti
AU  - Pooya Parvizi
AU  - Milad Jalilian
PY  - 2026
LA  - en
ER  -

Similar Items

Challenges and opportunities in the recovery of gold from electronic waste

Mudila Dhanunjaya Rao, Kamalesh K. Singh

Rapid global technological development has resulted in increased production of electronic waste, which presents both challenges and opportunities in r

2023enPDF

Coordinated supply scheduling of offshore and onshore hydrogen considering power and transportation networks

Xiong Wu, Yu Zhang

Converting offshore wind energy into hydrogen is a promising approach to improving renewable energy utilization. Coordinated offshore and onshore oper

2027enPDF

Bridging the climate to energy data gap: simulated annealing for representative climate year selection

Bram van Duinen, Karin van der Wiel

Energy system models are increasingly dependent on representative climate input. Yet, a fundamental mismatch persists between the hundreds of simulate

2026enPDF

Metallurgical Plant Design and Operating Strategies

P Card, J Canterford

This document presents a collection of papers from the METPLANT 2011 conference focusing on metallurgical plant design and operating strategies. The o

2011enPDF

THE FUTURE OF ELECTRONIC WASTE RECYCLING IN THE UNITED STATES: Obstacles and Domestic Solutions

Jennifer Namias, Dr. Nickolas J. Themelis

This study explores the future of electronic waste recycling in the United States, addressing the challenges and proposing domestic solutions. The rap

2013enPDF

Tariffs, energy contracts, and optimal Distributed Energy Resources investment in campus microgrids

Juan Manuel Alemany, Bruno Bignotti

Large institutional electricity consumers such as university campuses face a planning problem that cannot be reduced to photovoltaic sizing alone. The

2026esPDF